Bachelor of Science (Extended) in Chemical Engineering Systems

3 Years On Campus Bachelors Program

University of Melbourne

Program Overview

University of Melbourne’s Bachelor of Science (Extended) in Chemical Engineering Systems is a pathway-focused degree designed to give students a strong foundation in science and engineering while providing additional academic support to build confidence and capability in core technical subjects. It suits students aiming for a career in chemical, process, energy, or systems engineering who want a more supported entry into a rigorous engineering pathway.

Students study chemistry, mathematics, physics, and engineering systems while gradually developing advanced problem-solving, modelling, and analytical skills needed for chemical engineering practice.

Curriculum Structure

Year 1

In the first year, students focus on strengthening foundational knowledge in science and mathematics through subjects such as Chemistry 1, Calculus 1, and Physics for Engineers. The extended structure provides additional academic support while introducing core scientific principles, laboratory skills, and problem-solving approaches essential for engineering study.

Year 2

Year two develops core engineering understanding through subjects such as Thermodynamics, Fluid Mechanics, and Engineering Mathematics. Students begin applying scientific principles to engineering systems, learning how energy, materials, and chemical processes operate in real-world industrial environments through both theory and practical learning.

Year 3

In the final stage, students progress into more advanced chemical engineering systems and applied design learning. Subjects such as Process Engineering, Transport Phenomena, and Systems Modelling strengthen technical capability in designing and analysing chemical and industrial processes, preparing students for professional engineering study or entry-level industry pathways.

Focus Areas

Chemical engineering systems, thermodynamics, fluid mechanics, process engineering, systems modelling, applied mathematics, chemistry, physics, industrial processes, engineering fundamentals, problem-solving.

Learning Outcomes

Graduates will be able to apply scientific and engineering principles to analyse chemical systems, solve complex technical problems, and model industrial processes. Students also develop strong analytical thinking, laboratory competence, and foundational engineering design skills suitable for progression into advanced engineering study.

Professional Alignment (Accreditation)

This extended program is designed as a supported pathway toward accredited engineering study, preparing students for progression into professional engineering qualifications such as Master of Engineering programs required for engineering accreditation in Australia.

Reputation (Employability & Rankings)

University of Melbourne is consistently ranked among the world’s leading universities and is internationally recognised for excellence in science, engineering, and research education. Its engineering pathway programs are highly regarded for academic quality, graduate employability, and strong preparation for advanced technical careers.

Experiential Learning (Research, Projects, Internships etc.)

At University of Melbourne, the Bachelor of Science (Extended) in Chemical Engineering Systems is built around supported, hands-on learning that helps students gradually transition into advanced engineering study. Students gain practical skills through laboratory experiments, engineering problem-solving workshops, computational modelling, and structured project-based learning, all designed to build confidence in core chemical engineering principles. The extended format also provides additional academic support while still exposing students to real engineering tools and industry-style thinking:

Engineering and Science Laboratory Work : Students engage in practical experiments in chemistry, physics, and engineering systems to understand real-world chemical and process behaviour.
Supported Engineering Design Projects : Structured group projects help students develop teamwork, communication, and engineering design skills in a collaborative learning environment.
Computational Modelling and Analysis Tools : Students are introduced to engineering software and modelling techniques used to simulate chemical processes, systems behaviour, and industrial operations.
Hands-On Problem-Solving Workshops : Practical classes reinforce theoretical learning in thermodynamics, fluid mechanics, and process systems analysis.
Extended Academic Support Learning Model : Additional learning support is embedded into the program to help students strengthen mathematical, scientific, and engineering foundations.
Exposure to Research-Informed Teaching : Students learn from academics involved in cutting-edge engineering and science research, linking theory to real-world innovation.
Digital Learning Platforms and Engineering Resources : Access to online systems, scientific databases, and engineering learning tools that support both coursework and independent study.
Collaborative Learning Environment : Students work in groups on engineering challenges that reflect real industrial problem-solving approaches.
Library and Engineering Knowledge Resources : Extensive access to technical journals, engineering publications, and scientific databases through the university library system.
Preparation for Industry-Style Engineering Practice : Learning activities are designed to mirror real chemical engineering workflows, helping students build workplace-ready technical skills.

Progression & Future Opportunities

Graduates of the Bachelor of Science (Extended) in Chemical Engineering Systems at the University of Melbourne are prepared for progression into advanced engineering study and entry-level roles in chemical, energy, and industrial systems sectors. The program builds strong scientific foundations and problem-solving capability, giving students a supported pathway into professional engineering careers and further technical specialisation.

Graduates typically progress toward roles such as Process Engineer (via further study), Engineering Assistant, Systems Analyst, Industrial Technician, or Energy and Sustainability Support Officer across manufacturing, energy, consulting, and research-driven industries:

Dedicated Career and Employability Services : Students access career counselling, internship guidance, employer networking events, CV and interview preparation, and industry mentoring through the University of Melbourne’s careers support system.
Strong Engineering Pathway to Professional Accreditation : The degree is designed as a supported entry pathway toward accredited engineering qualifications required for professional engineering registration in Australia.
Industry-Connected Engineering Education : Students benefit from project-based learning and exposure to real-world engineering challenges aligned with industry expectations in chemical and systems engineering.
Global Graduate Employability Reputation : The University of Melbourne’s strong international ranking supports high recognition of its science and engineering graduates across global industries.
Research and Innovation Ecosystem : Students are connected to a research-active environment in engineering and science, supporting exposure to innovation in chemical systems, energy, and sustainability.
Industry-Relevant Technical Skill Development : Graduates gain strong analytical, modelling, and systems-thinking skills relevant to chemical engineering and industrial process sectors.
Strong Foundation for Engineering Career Progression : The program supports long-term progression into specialised engineering roles, leadership positions, and advanced technical careers.
Exposure to Interdisciplinary Science Applications : Students develop transferable skills applicable across energy, manufacturing, environmental systems, and materials engineering industries.

Salary outcomes vary depending on industry and role, but engineering graduates generally benefit from strong earning potential and long-term career stability in Australia and internationally.

Further Academic Progression:
After completing this program, graduates typically progress into the Master of Engineering (Chemical), Master of Engineering Science, or other accredited engineering master’s degrees required for professional engineering registration. Students may also pursue research pathways such as a Master of Philosophy (MPhil) or PhD in Chemical Engineering, Systems Engineering, or related scientific fields.